Abstract: Techniques disclosed herein relate to operating a motor using a first control module and a second control module. The techniques may involve detecting, by the first control module, after loading application code for execution by the first control module and the second control module, an anomalous condition. The techniques may further involve in response to detection of the anomalous condition, disabling, by the first control module, input power to the motor. The techniques may further involve resetting the first control module and the second control module to a boot loader stage.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: Infusion systems, infusion devices, and related operating methods are provided. An exemplary infusion device includes a motor operable to deliver fluid to a body of a user, a first control module to enable input power for the motor and provide a dosage command for operating the motor, and a second control module coupled to the first control module to receive the dosage command and operate the motor using at least a portion of the input power based at least in part on the dosage command. One of the first control module and the second control module detects an anomalous condition, and in response, disables the input power to the motor, stores diagnostic information for the anomalous condition in its internal memory, and automatically resets thereafter.

Abstract: A method is disclosed for performing cryptographic tasks, that include key setup tasks and work data processing tasks. This method comprises the steps of processing the key data in a first cryptographic engine and processing the work data in a second cryptographic engine. The processing of the key data comprises the steps of receiving key data, processing the key data, and generating processed key data. The processing of the work data comprises the steps of receiving the processed key data, receiving work data, processing the work data, and outputting the processed work data. In this method of the invention, the first cryptographic engine performs its tasks independently of the second cryptographic engine. A method for allocating cryptographic engines in a cryptographic system is also disclosed comprising monitoring a queue of cryptographic tasks, monitoring activity levels of a first allocation of a plurality of cryptographic engines, and dynamically adjusting the first allocation.

Abstract: A process is provided for searching in parallel for a plurality of prime number values simultaneously includes the steps of: randomly generating a plurality of k random odd numbers (wherein k is preferably more than 2, but could also be one or more) expressed as n0,0, n1,0, . . . n((k?1)),0, each number providing a prime number candidate; determining a plurality of y additional odd numbers based on each one of the randomly generated odd numbers n0,0, n1,0, . . .

Abstract: A method is provided for generating a group digital signature wherein each of a group of individuals may sign a message M to create a group digital signature S, wherein M corresponds to a number representative of a message, 0?M?n?1, n is a composite number formed from the product of a number k of distinct random prime factors p1·p2· . . . ·pk, k is an integer greater than 2, and S?Md(mod n). The method may include: performing a first partial digital signature subtask on a message M using a first individual private key to produce a first partial digital signature S1; performing at least a second partial digital signature subtask on the message M using a second individual private key to produce a second partial digital signature S2; and combining the partial digital signature results to produce a group digital signature S.

Abstract: A method and apparatus provides cryptographic parameters for use in cryptographic applications in response to requests therefor. The method includes the steps of: pre-computing one or more different types of sets of cryptographic parameters, each the type of set being adapted for use by an associated type of cryptographic application; securely storing the pre-computed sets of cryptographic parameters in a memory storage unit; receiving a request for a set of cryptographic parameters having specified characteristics for use in a particular cryptographic application; determining one of the sets of cryptographic parameters stored in the memory storage unit that has specified characteristics; accessing the determined set of cryptographic parameters from the memory storage unit; and providing the determined set of cryptographic parameters with minimal latency.

Abstract: A method is disclosed for performing cryptographic tasks, that include key setup tasks and work data processing tasks. This method comprises the steps of processing the key data in a first cryptographic engine and processing the work data in a second cryptographic engine. The processing of the key data comprises the steps of receiving key data, processing the key data, and generating processed key data. The processing of the work data comprises the steps of receiving the processed key data, receiving work data, processing the work data, and outputting the processed work data. In this method of the invention, the first cryptographic engine performs its tasks independently of the second cryptographic engine. A method for allocating cryptographic engines in a cryptographic system is also disclosed comprising monitoring a queue of cryptographic tasks, monitoring activity levels of a first allocation of a plurality of cryptographic engines, and dynamically adjusting the first allocation.

Abstract: A method is provided for generating a group digital signature wherein each of a group of individuals may sign a message M to create a group digital signature S, wherein M corresponds to a number representative of a message, 0≦M≦n−1, n is a composite number formed from the product of a number k of distinct random prime factors p1·p2· . . . ·pk, k is an integer greater than 2, and S≡Md(mod n). The method may include: performing a first partial digital signature subtask on a message M using a first individual private key to produce a first partial digital signature S1; performing at least a second partial digital signature subtask on the message M using a second individual private key to produce a second partial digital signature S2; and combining the partial digital signature results to produce a group digital signature S.

Abstract: A process is provided for searching in parallel for a plurality of prime number values simultaneously includes the steps of: randomly generating a plurality of k random odd numbers (wherein k is preferably more than 2, but could also be one or more) expressed as n0, 0, n1, 0, . . . n((k−1)), 0, each number providing a prime number candidate; determining a plurality of y additional odd numbers based on each one of the randomly generated odd numbers n0, 0, n1, 0, . . .

Abstract: A passive replicator for bubble devices receives a bubble from an input channel and splits that bubble into two bubbles which go into two separate output channels when a rotating magnetic field is applied. The bubble replicator is a single element which has at least three peripheral areas in spaced relation that are associated with different propagation channels. In preferred embodiments, an elongated bar is present in the propagation channels and it is positioned adjacent to and in spaced relation with a peripheral area of the replicator.

Abstract: An adaptive control system for improving the efficiency of an electric motor. Connected in series with the motor and across the voltage supply is an electronic bi-directional switch which may be triggered at differing times relative to the zero-crossing of the AC supply to thereby control the amount of time during each cycle that the motor is energized. The firing angle for the electronic switch is determined by an optimizing network which functions to introduce a relatively low frequency perturbation in the firing angle and means for sensing the effect of that change on the average power being drawn by the system during the period of the perturbation. If this small, periodic change in the firing angle of the electronic switch results in a decrease in average power consumption, the firing angle is adjusted in a direction which is determined to have precipitated the improvement. Alternatively, if the shift in firing angle occasioned by the minute perturbation resulted in a worsening of motor performance, i.e.

Abstract: A major/minor loop bubble memory system architecture includes a passive replicator in the major loop read channel which is connected by a first path to a mode switch-annihilator and a merge point in the major loop write channel and by a second path to an off-chip decision-making means and the merge point in the write channel. The decision-making means is positioned the same or fewer propagation steps than the mode switch-annihilator is from the replicator. The decision making means is activated to cause either the replicated data to pass through the mode switch-annihilator into the write channel or the replicated data to be annihilated in the mode switch-annihilator and the data from a generator to pass into the write channel.

Abstract: A magnetic bubble Y-bar corner for use at the end of a minor loop. The Y-bar corner includes a Y-bar corner element and a canted I-bar positioned between the Y-bar corner element and each of the two adjacent storage elements in the minor loop. The ends of the arm of the Y-bar corner element are positioned adjacent the apex portions of the canted I-bars. The distance between the ends of the arms of the Y-bar is larger than the distance between the opposing ends of the two canted I-bars. With this corner a bubble propagates in either direction along a path from a minor loop storage element to the end of the canted I-bar and then to the apex portion of the canted I-bar and from there across to the end of the arm of the Y-bar.

Abstract: An adaptive control circuit for use with a machine performance optimizing system for producing a control delay between a first event and the time at which a response to that event is to take place. The adaptive control circuit of this invention, when used with an internal combustion point closure signal and will advance or retard the generation of a spark plug firing signal for a period determined by the optimizing system's operating parameters, while still maintaining the desired dwell dictated by the engine manufacturer.

Abstract: A magnetic bubble switch operates in a drive-to-transfer mode when a rotating magnetic field is applied. The switch has a magnetic element in the shape that defines the letter "Y" having two arms and a stem. The switch has at least one serration on the arm of the Y in the vicinity of the stem. The switch has a conductor which is positioned across the end of the stem of the Y. A magnetic element is positioned so as to form a gap with the stem of the Y.